On the electrodynamics of moving bodies at low velocities
arXiv:physics/0512200 · doi:10.1088/0143-0807/27/4/007
Abstract
We discuss the seminal article in which Le Bellac and Levy-Leblond have identified two Galilean limits of electromagnetism, and its modern implications. We use their results to point out some confusion in the literature and in the teaching of special relativity and electromagnetism. For instance, it is not widely recognized that there exist two well defined non-relativistic limits, so that researchers and teachers are likely to utilize an incoherent mixture of both. Recent works have shed a new light on the choice of gauge conditions in classical electromagnetism. We retrieve Le Bellac-Levy-Leblond's results by examining orders of magnitudes, and then with a Lorentz-like manifestly covariant approach to Galilean covariance based on a 5-dimensional Minkowski manifold. We emphasize the Riemann-Lorenz approach based on the vector and scalar potentials as opposed to the Heaviside-Hertz formulation in terms of electromagnetic fields. We discuss various applications and experiments, such as in magnetohydrodynamics and electrohydrodynamics, quantum mechanics, superconductivity, continuous media, etc. Much of the current technology where waves are not taken into account, is actually based on Galilean electromagnetism.
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Cited by in corpus (20)
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- Lagrangian approach to the semi-relativistic electron dynamics in the mean-field approximation
- The Pauli and Equations, and the Spin Current Density
- The Galilean limits of Maxwell's equations
- Lorentz Transformations of the Electric and Magnetic Fields According to Minkowski
- Phase Field Modeling and Numerical Algorithm for Two-Phase Dielectric Fluid Flows
- Sengupta Transformations and Carrollian Relativistic Theory
- Conformal symmetry of an extended Schrodinger equation and its relativistic origin
- Symmetries and Couplings of Non-Relativistic Electrodynamics
- Les structures fines de l'électromagnétisme classique et de la relativité restreinte (The fine structures of Classical Electromagnetism and Special Relativity)
- On The Low Speed Limits of Lorentz's Transformation
- Maxwell's equations for a mechano-driven, shape-deformable, charged-media system, slowly moving at an arbitrary velocity field v(r,t)
- How to get from static to dynamic electromagnetism
- The geometry of induced electromagnetic fields in moving media
- A shadow of the repulsive Rutherford scattering in the laboratory frame
- Electromagnetic induction: physics, historical breakthroughs, epistemological issues and textbooks
- Comment on the paper by Rovelli & al. about the compatibility of various "gauge conditions"